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Saint-André, France
1-10 Employees
2017
3Digit le fournisseur de produits semi-finis du prothésiste numérique indépendant. Vous êtes prothésiste dentaire et vous utilisez un scanner 3D ou vos clients dentistes sont équipés de caméras optiques ? Ne perdez pas de temps et de l'argent avec une petite imprimante 3D résine, les résultats pour faire vos tirages en résine et les fondre seront médiocres, nous le savons nous sommes passés par là et nos clients aussi.Mais envoyez-nous directement vos STL, pas d'étape intermédiaire, nous les imprimons directement en chrome cobalt et vous aurez vos éléments sous 24 heures.Si vous n'êtes pas équipé pour la modélisation 3D vous pouvez la confier à notre partenaire Design4me puis faire produire à 3Digit. 3Digit n’a qu’un seul but, permettre aux prothésistes et laboratoires dentaires d’accéder à la fusion laser pour la réalisation de leurs chapes, couronnes, bridges, stellites, inlays, clavettes.. Nos productions sont toutes réalisées dans notre usine en France par fusion laser de poudre dentaire de Chrome Cobalt Type 5 certifiée CE NF-EN-ISO, gage de qualité et de longévité. 3DIGITSAS au capital de 27 000€RCS 833 187 313.
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3Digit au service du prothésiste dentaire
... Impression 3D métal par Fusion Laser ...
Germany
1-10 Employees
Wir fertigen Bauteile in Großserien für die Getriebetechnologie. Neben größeren Drehteilen stellen wir auch äußerst filigrane Produkte her. In der Elektroindustrie dürfen wir namhafte Hersteller zu unseren Kunden zählen. Produkte und Dienstleistungen in höchstmöglicher Qualität sind für uns selbstverständlich.
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Karriere - Eisenhardt Metallteile GmbH
... Interessante Aufgaben im Bereich Drehtechnik und additive Fertigung mit Laser Metal Fusion bzw. 3D Druck Metall erwarten Sie! ...
Tarentum, United States
11-50 Employees
Keystone Prototyping Solutions was formed to provide our customers with the kind of product knowledge, technical support and application assistance that they deserve. We provide sales support and technical assistance to our customers in Western Pennsylvania, Western New York, and all of West Virgina. With over 40 years of experience supporting customers in fields as diverse as Education, Medical and Manufacturing, KPS is ready to help your company be successful with its next big project.
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Epilog Fusion Pro Laser Engraver
... Epilog Fusion Pro Laser Engravers are the fastest laser engraving systems on the market. ...
Breukeleveen, Netherlands
1-10 Employees
2006
Efficiently apply tracking and identification marks on parts and products.
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Epilog Laser Introduces New Fusion Maker Laser System
... Epilog Laser Introduces New Fusion Maker Laser ...
Munich, Germany
11-50 Employees
2019
Marvel Fusion was founded in 2019 by Moritz von der Linden, Dr. Chief Operating Officer Heike Freund joined in 2020. The company, pre-seeded by BlueYard Capital, pursues a new and fast-track route to the commercial application of fusion energy. The company has gathered a unique team behind their mission to solve one of the biggest challenges of mankind: the creation of unlimited zero-emission energy. Scientists from the Ludwig-Maximilians-University in Munich, the Extreme Light Infrastructure for Nuclear Physics (ELI-NP), Stanford University and the Massachusetts Institute of Technology (MIT) have recently joined forces with Marvel Fusion to bring its fusion concept to fruition.
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Marvel Fusion -The ultimate clean energy solution
... Our mission is to enable humankind to access clean, safe & reliable energy by building a laser-driven fusion power plant. ...
Tarentum, United States
11-50 Employees
1979
Based in the Greater Pittsburgh area, we are a family owned business with strong relationships tied to the educational industry. We strive to offer and provide the most current needs in technology teaching and training, and with a full sales, support, and administrative staff, we have the ability to help our customers with their every need. At Allegheny Educational Systems we are committed to providing each and every one of our customers, Our Partners in Education, the service, curriculum, equipment and attention they deserve. We feel that you, our client, are our partner in delivering the highest level of education available to all of your students. Our corporate resources include classroom designers, who work to design a learning environment to accommodate students, learning materials and new technologies.
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Epilog Fusion Pro Laser Engraver
... Introducing the Epilog Fusion Pro Laser line - the fastest laser engraving systems on the market. ...
Deerfield Beach, United States
1-10 Employees
1977
We are determined to provide the highest level of quality at the lowest possible price! HMI is a Manufacture of precision machined parts, Tools, Dies, Aerospace, Military, Medical, Aviation, Power Generation, Alternative Energy, Prototypes and Automobile. Our Shop operates in accordance with Quality Assurance Manual, and Quality Operational Procedures. Manufactured using Wire EDM, 5 Axis Milling, CNC Swiss Machining, and Multi-Axis Milling. For many companies, the vision is a plaque in the lobby. Top talent, an innovative process, cost-containment strategies and award-winning support are a part of every part.
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Our Capabilities | Henderson Machine Inc.
... Epilog Laser Fusion ...
Johnstown, United States
1001-5000 Employees
1986
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Laser Powder Bed Fusion
... Laser Powder Bed Fusion is an additive manufacturing process in which thermal energy (from a laser) selectively fuses regions of a powder bed layer by layer. ...
Willmar, United States
11-50 Employees
2013
industrial grade 3D printing from prototypes to production. What is Ultra White at DI Labs? It’s an advancement in additive that allows us to print bright white, industrial-grade nylon parts that are high resolution and can be sealed for easy cleaning or sanitizing. They are made possible by our new HP Jet Fusion 5420W which is an additive manufacturing workhorse for volume production of even the most complex geometries. The addition of Ultra White gives DI Labs another valuable tool in our toolbox for high-end applications like medical device, consumer goods and automotive where white parts are an essential aesthetic. Check out our Solutionology Podcast! Hosts, DI Labs Co-Founders Brian and Carl Douglass, are “solutionologists” who solve problems and create new opportunities for customers by leveraging their diverse and powerful fleet of cutting-edge additive technologies.
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Technology: Laser Powder Bed Fusion Metal
... Laser Powder Bed Fusion (LPBF) Metal Laser powder bed fusion is a process to fuse metal powder to produce metal components. Our LPBF machine prints ...
South Cambridgeshire, United Kingdom
11-50 Employees
2020
We are proud to release our HSI camera for computer vision developers! Our vision is to seamlessly integrate hyperspectral imaging into the fabric of everyday life, a commitment that is reflected in our name, Living Optics – because we want to be an integral part of how people see and interact with the world around them. Find out how your products look in any lighting condition with hyperspectral imaging. Our remote working colleagues offer a diverse and refreshing perspective from as far wide as Taiwan and Scotland. Head over to the Products page to see more. Hyperspectral imaging offers farmers the data they need to better understand how their crops are growing as well as the impact of environmental factors such as soil quality and resource utilisation.
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Our Story: Technology Invented out of Necessity
... We needed a camera to take videos of laser fusion experiments. We couldn't buy camera that fast, so we made one: Hyperspectral Camera. ...
Technologies which have been searched by others and may be interesting for you:
Some interesting numbers and facts about the results you have just received for Laser Fusion
| Country with most fitting companies | United States |
| Amount of fitting manufacturers | 57 |
| Amount of suitable service providers | 48 |
| Average amount of employees | 11-50 |
| Oldest suiting company | 1977 |
| Youngest suiting company | 2020 |
Laser fusion, a cutting-edge process in the field of nuclear physics, involves using high-powered lasers to heat and compress a small target, typically a pellet containing deuterium and tritium (isotopes of hydrogen), to initiate nuclear fusion reactions. This technique aims to achieve the conditions necessary for fusion—the same process that powers the sun—under controlled settings on Earth, potentially unlocking a virtually limitless source of clean energy. The significance of laser fusion extends beyond its theoretical promise of an inexhaustible energy supply; it represents a pivotal advancement in scientific research, offering insights into plasma physics, materials science, and energy production. As researchers continue to overcome the technical challenges, such as achieving the precise conditions for a sustainable fusion reaction, laser fusion stands at the forefront of efforts to develop a clean, sustainable, and safe energy alternative. Its successful implementation could drastically reduce our reliance on fossil fuels, mitigating climate change impacts and reshaping the global energy landscape. The pursuit of laser fusion technology also propels advancements in high-power laser systems, contributing to developments in various applications ranging from medical treatments to defense. By harnessing the power of nuclear fusion through lasers, scientists and engineers are paving the way for a revolutionary shift in how humanity generates and consumes energy, marking a significant leap forward in both technology and environmental stewardship.
1. High Precision and Accuracy
Laser fusion stands out for its exceptional precision in fusing materials at a microscopic level. Unlike traditional methods, it allows for the accurate joining of components with minimal error margins, ensuring high-quality outcomes in manufacturing processes.
2. Minimal Heat Impact
One of the significant advantages of laser fusion is the minimal heat affected zone (HAZ). This technology focuses energy precisely where it's needed, reducing the risk of thermal distortion and damage to surrounding materials, which is common in conventional welding.
3. Material Versatility
Laser fusion's adaptability to various materials makes it superior to many alternatives. It can efficiently join a wide range of metals, including those that are traditionally challenging to weld, offering greater flexibility in manufacturing and design options.
4. Enhanced Safety
The process is inherently safer than traditional fusion methods. By using laser light, it eliminates the need for physical contact and reduces exposure to potentially harmful fumes and materials, ensuring a safer working environment.
While evaluating the different suppliers make sure to check the following criteria:
1. Technology and Equipment
Ensure the supplier has the latest laser fusion technology, which is critical for precision, efficiency, and quality of the output.
2. Material Compatibility
Confirm that they can work with the specific materials you require for your project, as not all laser fusion processes are compatible with every material.
3. Quality Control Measures
Investigate the supplier's quality assurance procedures to ensure they meet your standards and industry regulations.
4. Production Capacity
Verify their ability to meet your demand without compromising on quality or timelines, which is crucial for maintaining your project schedules.
5. Cost Effectiveness
Compare pricing to ensure you're receiving competitive rates without sacrificing quality or service levels.
6. Experience and Reputation
Check their track record and industry reputation to ensure they have a history of delivering high-quality results and reliable service.
Laser fusion technology plays a pivotal role in the manufacturing sector, especially in precision engineering. Its ability to join materials with high accuracy is invaluable for creating complex components in aerospace and automotive industries. This precision ensures that even the most intricate parts meet stringent quality standards, enhancing the performance and reliability of end products. In the medical device industry, laser fusion is fundamental for fabricating small, intricate devices with a high degree of precision. This technology allows manufacturers to produce components with complex geometries that are essential for medical implants and surgical instruments. The resultant products not only adhere to strict regulatory standards but also ensure patient safety and improved medical outcomes. The energy sector benefits from laser fusion in developing components for nuclear fusion reactors. Here, the technology's precision is critical for creating parts that can withstand extreme conditions inside reactors. By ensuring the integrity of these components, laser fusion contributes to the safety and efficiency of nuclear energy production, marking a step forward in sustainable energy solutions. In electronics manufacturing, laser fusion is harnessed to create miniaturized components with precise connections, essential for the functionality of smartphones, computers, and other digital devices. This use case underscores the technology's role in enabling the ongoing miniaturization trend in electronics, which demands high precision and reliability.
Laser fusion, a form of inertial confinement fusion where lasers are used to heat and compress a target to the point of nuclear fusion, currently stands at a Technology Readiness Level (TRL) between 3 and 4. This assessment is based on the fact that experimental proof-of-concept has been demonstrated in lab environments, such as with the experiments conducted at the National Ignition Facility (NIF) in the United States. However, the technology has not yet advanced to a stage where it can be considered for practical, commercial energy production. The primary technical challenges limiting its TRL advancement include the need for extremely high precision in laser targeting and timing, the requirement for immense energy input to achieve net energy gain, and difficulties in sustaining the necessary conditions for fusion reactions to occur effectively. Additionally, the development of materials capable of withstanding the extreme conditions generated during fusion events, and the engineering of a viable system for energy capture and conversion, present significant hurdles. These technical obstacles underscore the complexity of transitioning laser fusion from experimental stages to a reliable and scalable energy source, reflecting its current position in the developmental spectrum.
In the Short-Term, advancements in laser fusion technology are expected to focus on increasing the efficiency of laser systems and the precision of target alignment. Researchers are working on optimizing the laser pulse shape to maximize energy transfer, which is crucial for initiating the fusion reaction. These improvements aim to reduce the energy input required for ignition, making laser fusion experiments more sustainable and frequent. Enhanced diagnostic tools will also play a pivotal role in this phase, offering deeper insights into the fusion process and enabling more precise adjustments. The Mid-Term phase will likely witness significant strides in scaling up laser fusion technology for practical energy production. Efforts will be concentrated on achieving consistent and controlled fusion reactions, a critical milestone for harnessing fusion as a reliable energy source. Developments in materials technology and laser power will facilitate the construction of larger, more efficient fusion reactors. This period will also see the integration of artificial intelligence and machine learning algorithms to optimize reactor performance and energy output, marking a crucial step towards commercial viability. Looking into the Long-Term, the culmination of laser fusion research is expected to revolutionize the energy sector. With the establishment of fully operational fusion power plants, this technology promises an abundant, clean energy source, drastically reducing reliance on fossil fuels and decreasing carbon emissions. Breakthroughs in magnetic confinement and laser technology will enable continuous, stable fusion reactions, achieving the long-sought goal of net energy gain. Furthermore, advancements in material science will ensure the longevity and safety of fusion reactors, paving the way for widespread adoption and transforming the global energy landscape.
